Mobile telephone dog training tool and method

ABSTRACT

A mobile telephone adapts to use as a gundog training tool by interfacing with a dog collar using a wireless communication device, such as a WWAN text or IP interface, a WLAN interface or a radio transceiver that couples to the mobile telephone and is accessible to a training application running on the mobile telephone. The dog collar includes a GPS receiver to provide position information to the mobile telephone and a shock device to provide training stimulus to the dog. A wireless headset interfaces with the mobile telephone to provide audible indications of position to an end user, such as a dog point and tone indicators of directions to the dog. A wireless handset interfaces with the mobile telephone to accept inputs for application to the collar, such as training stimulus.

RELATED PATENT APPLICATION

This application is a continuation of U.S. patent application Ser. No.15/375,505, filed on Dec. 12, 2016, now U.S. Pat. No. 9,661,828, issuedMay 30, 2017, which is a continuation of U.S. patent application Ser.No. 14/462,882, filed on Aug. 19, 2014, now U.S. Pat. No. 9,538,725,issued Jan. 10, 2017, which is a continuation-in-part of U.S. patentapplication Ser. No. 13/901,934, filed on May 24, 3013, now U.S. Pat.No. 8,839,744, issued Sep. 23, 2014, which is a continuation-in-part ofU.S. patent application Ser. No. 13/790,548, filed on Mar. 8, 2013, nowU.S. Pat. No. 9,226,479, issued Jan. 5, 2016, all of which describeexemplary methods and systems and are incorporated by reference in theirentirety.

BACKGROUND OF THE INVENTION

Field of the Invention

The present invention relates in general to the field of dog training,and more particularly to a mobile telephone dog training tool andmethod.

Description of the Related Art

Kali Bianchi recently completed an upland game bird grand slam. Kali isa French Brittany, L'Epagneul Breton. Her story is captured in “It's allabout the Dog,” published in the Publication of the Club de l'EpagneulBreton of the United States, Second Semester 2012, Issue 35. Kali neverhad formal training to speak of. Kali, like most successful gun dogs,had good genetic cloth woven into a hardy hunting companion by her loveof her master.

Although Kali lacks formal training credentials, she did learn somebasic skills the hard way at the old-fashioned South Texas school ofhard knocks. She learned to listen when told to come or she would getchased down. She learned to avoid rattlesnakes after getting whacked onthe nose by a de-fanged rattler. She learned that skunks stink and thatdogs that smell like skunk do not get love. She learned that when theboots and gun came out, she better pick up and go because good thingsusually happen. Kali learned where birds hide with time and freedom onher hunts to investigate promising cover. When the cover was taller thanher short stature, a bell around her neck and swishing weeds generallyindicated her whereabouts. During the excitement of a hunt, the absenceof noise meant a point and Kali had learned to find her quarry.

Kali grew up on a South Texas ranch with lots of room to roam and learnabout the outdoors. Many gun dog pups do not share Kali's good fortune.City dogs that do not get to experience the outdoors as Kali did oftenhave difficulty adapting to hunting unless they receive some sort offormal training. Professional kennel trainers who train many dogs simplydo not have time for old-fashioned, hands-off training like that Kalireceived. If, for example, a professional kennel trainer had to chasedown every pup that failed to come when called, not much training wouldget done. Instead, professionals typically use training tools that helpteach dogs what to do and what not to do.

One prominent dog training tool is the shock collar, which applies anelectric shock to a dog's skin in response to a remote activation at aradio controller held by a trainer. After a dog learns the meaning of acommand, like “come,” application of a shock helps to ensure compliancewhen the dog hesitates or chooses not to listen. Some shock collarsinclude or work with Global Position Satellite (GPS) receivers that aida trainer in the field by letting the trainer track the dog's positionon a display included with the radio controller. Examples of suchsystems include the GARMIN ASTRO and ALPHA systems. Some pet recoverysystems use GPS to track lost dogs and report the position of the dog toan owner through a website or smartphone application, such as theSPOTLIGHT pet recovery system available from the American Kennel Club.After a dog learns verbal commands, advanced training usually involvesthe use of whistles to send commands over long distances. A good trainerwho uses training tools in an appropriate manner can have a dog withsmart genes trained to hunt in a month or two.

One difficulty with training dogs using shock collars is that dogsbecome “collar smart.” If a dog figures out that he only gets shockedwhen a collar is on, he soon learns not to behave absent the collar.Worse, if the dog learns that the trainer has a shock collar but themaster does not, the dog might decide to hear the trainer but not themaster—who, incidentally, pays the trainer and buys the dog food. Mostcity dwellers burn years of kitchen passes when they buy an expensivehunting dog. If that dog won't hunt, the poor fellow has to do a load ofdishes to pay for an expensive training collar. Ironically, once he getsthe collar and puts it on the dog, he will probably not have to use itmore than a couple of times to teach the dog to listen.

Simple old-fashioned training worked with Kali, but that bell around herneck has made her hard of hearing in her old age; as a result, thewhistle too often goes unheard. New-fangled training tools work and helpto make hunting more pleasurable for both the dog and his master. Ahunter should not have to spend a lifetime of kitchen passes to havetraining tools—bells and whistles included—that work at home, worksimply, and work well.

SUMMARY OF THE INVENTION

Therefore a need has arisen for a system, apparatus and method whichadapt a mobile telephone to work as a dog training tool.

In accordance with the present invention, a system and method areprovided which substantially reduce the disadvantages and problemsassociated with previous methods and systems for training a dog. Atraining application executing on a mobile computing platform, such as amobile telephone or tablet computer, provides interactions with atraining module deployed at a dog collar to perform training functions.Processing, display and communication resources of a mobile telephoneare leveraged to provide a dog training system that is simple, reliableand not costly.

More specifically, in one embodiment, a mobile telephone processorexecutes a training application that coordinates training informationand actions for training a dog, such as a pointer bird dog. The trainingapplication communicates with a dog collar using existing WWAN, WLANand/or WPAN interfaces of the mobile telephone. The dog collar includesa GPS receiver that sends dog position information to the trainingapplication for presentation on the mobile telephone display, such aswith a map of a hunt boundary that shows the relative position of themobile telephone to the dog, to other dog collars and to other mobiletelephones interfaced through an ad hoc, client/server or other type ofWLAN supported by an 802.11 interface or by a mobile telephone circuitInternet interface transmitted through a mobile telephone serviceprovider network. A shock device on the collar provides correctivestimulus to the dog based on a wireless signal issued from the mobiletelephone. A headset and handset interface with the mobile telephonethrough a WPAN interface so that an end user may issue commands to themobile telephone and listen to information from the mobile telephone ina hands-off mode. For instance, a wireless microphone accepts a verbalcommand “where dog?” to the training application running on the mobiletelephone. The training application responds to the command bydetermining the dog position from the collar GPS retrieved through atext message sent by a WWAN mobile telephone circuit. Once the trainingapplication receives the dog's GPS position, the training applicationissues an audible “100 yards west” to the end user through a wirelessheadset Voice over Internet Protocol (VoIP) and videoconferencingsupported through a WLAN or WWAN Internet interface allows a hunter tocommunicate verbally with a dog over an extended distance through aspeaker of the collar and to see via a remote camera what the dog ispointing.

In one alternative embodiment, power consumption at a collar and radiotransmission interference with communications of a collar are reduced byselectively suppressing or otherwise altering communication of positioninformation from the collar. For instance, a training applicationexecuting on a mobile telephone assigns different frequencies and/ortime slots to each of plural collars for communicating positioninformation to an adapter or to a mobile telephone. A tunabletransceiver of an adapter tunes radio frequencies for communicating witheach of plural collars and synchronizes communications with a time slotassignment for each collar. Collars power down to a reduced-powerconsumption standby state, such as by powering down a collartransceiver, outside of a time slot assigned to the collar fortransmission, thus preserving battery charge at the collar.Transmissions at a collar during time slots for the collar areselectively suppressed based upon changes in position of the collarrelative to a previous transmission, or based on other predeterminedfactors. For instance, if a dog is on point then a collar suppressesposition transmissions scheduled for one or more time slots while thedog's position remains relatively immobile, such as within 5 meters ofthe last position transmission. As another example, if a dog's velocityvector remains constant, the collar suppresses position transmissionssince a virtual inertial navigation system on a mobile phone can trackposition based on a velocity vector determined from accelerations andorientation measured at the collar or determined from a history of GPSpositions at plural times. An adapter listens during each time slot incase an update is transmitted from a collar and tracks reliability ofposition information by having position updates at minimal intervals,such as every minute. In one embodiment, a GPS receiver clock signal isused as a reference clock for collar, adapter and ad hoc 802.11 (b, g orn) communications to maintain synchronous communications, reduceinterference and improve the precision at which a collar and adapter cansleep, wake and communicate with each other. Alternatively, a collarwakes at times known to the adapter so that the adapter can transmit tothe collar when position information is desired. In one exampleembodiment, Bluetooth (or other WPAN or alternatively WLAN)communications directly between a mobile telephone and a collar allowsleep of a UHF/VHF transceiver on the collar and on an adapter as longas Bluetooth pairing is maintained, such as anytime a collar comeswithin 10 M or so of a paired mobile telephone.

The present invention provides a number of important technicaladvantages. One example of an important technical advantage is that theprocessing and communication capabilities of a smartphone are leveragedto enhance dog training with communications to a dog collar. Knowing theposition of a dog and other hunters through mobile telephonecommunications enhances dog training and hunter safety. Hands-offcontrol of dog activity through wireless peripherals of a smartphoneallows a hunter to perform dog training activities without fumbling fora phone or other device. Leveraging smartphone capabilities to interactwith a dog collar provides top-rate performance at an everyman costcontrollable by an end user, who chooses whether to rely on basic mobiletelephone WLAN 802.11 capabilities with minimal hardware costs or torely on more expensive and expansive capabilities provided byinteracting with a dog collar over a WWAN mobile telephone account orwith an adapter that extends the range of direct radio communications bythe mobile telephone to the dog collar.

BRIEF DESCRIPTION OF THE DRAWINGS

The present invention may be better understood, and its numerousobjects, features and advantages made apparent to those skilled in theart by referencing the accompanying drawings. The use of the samereference number throughout the several figures designates a like orsimilar element.

FIG. 1 depicts an example of a mobile telephone dog training systemdeployed in a hunting environment;

FIG. 2 depicts a block diagram of a mobile telephone dog trainingsystem;

FIG. 3 depicts an adapter to accept a mobile telephone for interactingwith a dog collar;

FIG. 4 depicts a flow diagram of a lock and tone process for guiding ahunter to a dog on point;

FIG. 5 depicts a side view of an example embodiment of an adapter forproviding UHF and VHF frequencies and that interacts with a wirelesstelephone through a WPAN for relaying information to and from a dogcollar;

FIG. 6 depicts an example of a mobile telephone interacting with anadapter and a collar through plural radio frequencies, such as undermanagement of a training application;

FIG. 7 depicts a flow diagram of a process for determining a frequencyfor communication with a dog collar;

FIG. 8 depicts an example embodiment of a system that tracks multipledog collars at one or more mobile telephones using one or more adapters;

FIG. 9 depicts a variety of examples that provide improved battery lifeand reduced interference in hunting situations with multiple dogs andhunters;

FIG. 10 depicts an example embodiment of a collar 24 that applies logicto selectively communicate position information in order to reduce thenumber of transmissions from collar 24 and thus save power;

FIG. 11 depicts a flow chart of one example of logic for determiningwhen to communicate position information from a collar;

FIG. 12 depicts one example of a modular collar adapted for use with ashock device 68, such as to enforce a GPS fence boundary;

FIG. 13 depicts one example of a collar adapted to correct GPS positionwithin a boundary by reference to images of features within the boundarytaken by a camera in the collar;

FIG. 14 depicts a flow diagram of an exemplary method for tracking GPSpositions from a collar with WPAN and VHF radio communications toconserve battery power;

FIG. 15 depicts a flow diagram of an exemplary method for managing powerconsumption of a mobile telephone or tablet device that track GPSpositions from a collar and/or adapter with WPAN communications;

FIG. 16 depicts a flow diagram of an exemplary method for managing powerconsumption of a mobile telephone, adapter and collar during WPANcommunications;

FIG. 17 depicts a block diagram depicts an example embodiment thatcoordinates communication between a mobile telephone, adapter and collarby WPAN and VHF managed to improve power efficiency;

FIG. 18 depicts an example embodiment of an adapter that re-configureswith firmware downloads from mobile telephone to manage different typesof legacy dog collar devices;

FIG. 19 depicts a block diagram of a system for caching maps on a mobiletelephone or tablet device; and

FIG. 20 depicts a flow diagram of a process for adjusting operatingconditions at a collar and adapter based upon map features.

DETAILED DESCRIPTION

Mobile telephones provide a dog training tool by interacting with awireless communication module included on a collar on the dog. Dependingupon the needs and desires of the dog's master, the mobile telephoneprovides short or long range training assistance, such as presentationof a GPS location of the dog relative to the master and stimulation tothe dog from a shock collar or other training aid located on the collar.A training application running on the mobile telephone provides trainingfunctions that coordinate communications with one or more dog collarsand with one or more other mobile telephones. For example, an ad hocnetwork within a hunting boundary is defined by plural trainingapplications running on plural mobile telephones to provide enhancedcoordination of dog training activities. The training applicationleverages capabilities generally included in mobile telephones so thatadvanced features are provided without costly specialized hardware.Mobile telephones, also known as cell phones or cellular phones, willwork with a remote dog collar as envisioned herein by using existingwireless capabilities of the mobile telephone to communicate directlywith a dog collar by a radio communication from the mobile phonedirectly to the dog collar and from the dog collar directly to themobile phone. Generally, a mobile telephone has a form factor thatprovides a telephone handset, a touchscreen display to presentinformation and accept inputs, and at least a WWAN transceiver tocommunicate wirelessly with a mobile telephone service provider network,such as with voice telephone communications, text message communicationsand data Internet communications like a web browser. In addition, amobile telephone usually includes an 802.11 transceiver in the 2.4and/or 5 GHz band to communicate through a wireless local area network(WLAN) and to communicate via short range wireless personal area network(WPAN) Bluetooth interfaces and a 60 GHz short range antenna for WPANperipheral communications. Other types of mobile computing devices thatinclude similar capabilities may also be used with the dog collardescribe herein, such as tablet computing devices equipped with WWAN andWLAN capabilities.

Referring now to FIG. 1, an example is depicted of a mobile telephonedog training system deployed in a hunting environment. Plural hunters 10are deployed within a hunt boundary 12, each with a mobile telephone 14that communicates through at least one wireless network. A base station16 located at a truck 18 may be a mobile telephone or other computingdevice, such as a laptop or tablet computer, having an oversized antennaand amplified wireless signal to act as a relay or repeater stationbetween mobile telephones 14 or between network communications, such asa WWAN and WLAN communication. Although the example embodiment usesmobile telephones 14 with hunters 10, in alternative embodiments, othercomputing devices may be used. Examples of mobile telephones 14 includeAPPLE iPhones, SAMSUNG GALAXY phones or other types of smartphones.Examples of base station 16 include APPLE iPADs, ANDROID-based tabletsor other portable computer systems, such as clamshell laptop devices. Inone example embodiment, hunt boundary 12 is the training area of akennel so that base station 16 is a fixed desktop computer system.

One or more dogs 20 are deployed in hunting boundary 12, such as to huntone or more areas of cover 22 for game birds like quail or pheasant.Each dog has a collar 24 that includes a communication module forcommunicating with mobile telephones 14 and each collar has a trainingmodule for providing a training function coordinated with mobiletelephones 14. Communications between mobile telephones 14, base station16 and collars 24 are supported in a number of different mannersdepending on the types of communication bands and protocols that aresupported by mobile telephones 14 and collars 24. In one embodiment, awireless local area network (WLAN) device, a wireless wide area network(WWAN) device and a wireless personal area network device (WPAN) areselectively included on each of mobile telephones 14 and collars 24 byassembly of one or more appropriately configured wireless communicationmodules to collar 24. Wireless communication coordinated through one orseveral of these wireless communication devices provides trainingapplications running on mobile telephones 14 and base station 16 withtraining information for each other and collars 24, such as GPSpositions, and with a medium for sending training commands, such asshock collar stimulus.

One example of wireless communications is communicating traininginformation and commands between a collar 24 and a mobile telephone 14through an IEEE 802.11(n) ad hoc or server/client WLAN interface. Forinstance, a training application on a mobile telephone 14 acts as aserver and one or more collars 24 act as clients that send the serverGPS position information, images from a camera aligned with a directionof a point for the dog 20 wearing the collar 24, a point alert fromdetection of lack of motion with an accelerometer in the collar 24, orother types of training information. The mobile telephone 14 serversends training commands to the one or more collars 24 that issue anelectric shock or other stimulation at the collar, issue an oral commandfrom a speaker on the collar, such as with a VoIP interface or withstored oral commands in a memory on the collar 24, or issue other typesof commands. In an outdoor line-of-sight environment, an 802.11(n) WLANinterface has a range of approximately 250 m. If a collar 24 becomesout-of-range from one mobile telephone 14, then a second mobiletelephone 14 that receives communications with the collar 24 and theother mobile telephone 14 can relay the training information andcommands between the out-of-range collar and mobile telephone. Further,a WLAN interface between two or more mobile telephones 14 allows VoIPcommunication between the mobile telephones 14 so that hunters verballycommunicate with each other. Although the example embodiment describesthe use of 802.11(n) in the 5 GHz frequency range, in alternativeembodiments, 802.11(b) or (g) may be used with a possible increasedrange in the 2.4 GHz frequency range. In one example embodiment, asecured 802.11 network protected by a key or with HTTPS protocol may beused to avoid intrusion by others in the WLAN.

If a collar 24 becomes out of range for a WLAN interface with 802.11(n),WWAN communications may be used both with and without coordination by acell phone tower 26. For instance, in remote areas mobile telephoneservice is sometimes not available or not reliable. In a situation wherecell phone tower 26 is available, training applications on each mobiletelephone 14 may use an Internet Protocol (IP) interface through amobile telephone provider circuit to perform the same types ofcommunications as are available through WLAN communications as describedabove. For instance, a VoIP, SKYPE or FACETIME communication will allowimages and/or commands to be communicated between a collar 24 and amobile telephone 20. As an alternative, text messages may be used tocommunicate information, such as with simple text, in an XML format oras a script executable by the training application. As an example, acollar 24 sends a text message with a GPS position at predetermined timeintervals, such as every 10 seconds. As an alternative example, to savebattery power at collar 24, a text message with a GPS position is sentbased upon at least a predetermined change in position. For instance atext message is sent every 10 seconds unless the collars position hasnot changed by more than 10 feet, in which case no text message is sentuntil a position change of greater than 10 feet is detected or a greatertime period has elapsed, such as another minute. This saves batterypower during rest periods or when a dog is on point. Text messages mayinclude attachments sent from a collar, such as an image captured by acamera associated with a collar. Text messages sent to a collar mayinclude commands, such as a direction for the dog to turn, which isissued as an audible command by a speaker to have the dog 20 move in adesired direction. In one embodiment, a collar 24 intercepts IP packetsor text messages sent from a mobile telephone by knowing the mobiletelephone's network communication security codes so that the IP packetor text message need not transfer through a phone circuit at all. Inalternative embodiments, other types of direct two-way communicationsmay be accomplished between a mobile telephone 14 and a collar 24 withthe WWAN or the WLAN frequency and protocol in the absence of mobiletelephone service through a cell tower 26, such as through coordinationwith a mobile telephone service provider. One example is to re-program aWNIC of a mobile telephone to provide analog signals in the WWAN or WLANfrequencies to allow the mobile telephone to be used like a touch totalk service that mimics walkie talkie behavior or a remote control (RC)transceiver device. As one example, a WWAN type service may be providedwith a WIMAX type of protocol, which provides approximately 1 mile ofrange.

A WPAN has a short range, such as that provided by 60 GHz frequencyrange protocols, Bluetooth or similar short range communication devicesthat support peripherals like wireless headsets for mobile telephones.In one example, a wireless headset is used by the training applicationrunning on the mobile telephone to issue audible information for ahunter or accept commands from a hunter. For instance, a lock tone isprovided when the training application receives an indication from acollar that a dog as gone to point. The tone beeps at varyingfrequencies and with other alterations in sound to guide the hunter tothe point, such as higher frequency tones when the mobile telephone ismoving closer to the collar and lower frequency tones when the mobiletelephone is moving further from the collar. A flush tone issues whenthe hunter reaches the location of the point as a warning to the hunterand as a warning to other hunters who have mobile telephones wirelesslyinterfaced with the hunter's mobile telephone or the dog's collar. Asanother example, a wireless handset coupled with an armband acceptsinputs to buttons programmable by the hunter to accomplish trainingtasks, such as issuing stimulation from a shock device. As anotherexample, a wireless camera mounted on top of the dog's head communicatesimages to a collar 24 so that the camera need not have a wiredconnection to the collar 24.

Hunt boundary 12 may be predefined before a hunt so that collars 24 willissue audible warnings if a dog attempts to leave the boundary, followedby stimulation. The boundaries and a map of the hunt area are stored onmobile telephone 14 ahead of time, such as from the Internet, in casephone service is not available to download a map during a hunt, such asat a remote location outside of the range of a mobile telephone serviceprovider network. Hunt boundaries 12 may be programmed in memory of eachcollar 24 for an automated wireless fence around the hunt area enforcedby logic at the collar or may be monitored automatically by a trainingapplication so that warnings and stimulations are sent through the WLANor other communication medium as needed based upon a collar's position.In alternative embodiments, a base station 18 may be used to define awireless fence at a hunter's home for use of the system when nothunting. For instance, the base station activates a “home” boundaryloaded in memory of the collar so that logic on the collar can issue astimulation if the position of the collar approaches, reaches or exceedsthe home boundary. The boundary may be re-programmed as desired througha WLAN interface between the base station and collar. Breach of theboundary can also be programmed to notify the dog owner via mobiletelephone that the escape has occurred and reduce the amount of timerequired to retrieve the wandering dog and the associated stress.

Referring now to FIG. 2, a block diagram depicts a mobile telephone dogtraining system 28. Mobile telephone 14 is a smartphone having a CPU 30and memory 32 that cooperate to execute instructions and presentinformation as visual images at a touchscreen display 34. Acommunications module 36 cooperates with CPU 30 to perform smartphonecommunications. A WWAN communication device establishes communicationwith a WWAN, such as a mobile telephone service provider network thatsupports telephone circuit, text and Internet-type data interfaces. AWLAN communication device 40 establishes communication with a WLAN, suchas an 802.11 network that supports Internet-type data interfaces. A WPANcommunication device 42 establishes communication with a WPAN, such asBluetooth or a 60 GHz band in a tri-band or WiGig network interface.Mobile telephone 14 includes a variety of other devices commonly foundin smartphones, such as speaker 44 that outputs audible sounds, amicrophone 46 that captures audible sounds and a GPS receiver 48 thatdetermines a position of the device from GPS signals. In one alternativeembodiment, a temperature sensor is included and proximate the housingto detect rapid changes in temperature, such as if a dog jumps intowater, so that the event may be reported to an end user by radio.

Mobile telephone 14 adapts for use as a dog training system by executinginstructions of a training application 50 stored in memory 32, whichcoordinates the use of hardware and software of mobile telephone 14 forperforming dog training functions. For example, training application 50coordinates communication with dog collar 24 through communicationmodule 36. In the example embodiment, dog collar 24 has a removablycoupled wireless communication module 52 that couples to a trainingmodule 54 so that an end user can select the type of communications thatthe mobile telephone will have with collar 24. For instance, wirelesscommunication module 52 may have single or plural types of receivers ortransceivers for supporting different types of communications selectedby an end user with different frequency bands and communicationprotocols. In one example embodiment, wireless communication module 52is an analog or digital receiver, transmitter or transceiver radio inthe amateur UHF or VHF radio bands that communicates with an adapter forthe mobile telephone 14 as set forth in FIG. 3. In another exampleembodiment, wireless communication module 52 is a WWAN receiver,transmitter or transceiver that communicates in the WWAN band andprotocol of mobile telephone 14. In another example embodiment, wirelesscommunication module 52 is a WLAN receiver, transmitter or transceiverthat communicates in a WLAN band and protocol of mobile telephone 14.Various combinations of receivers and transmitters may be couple totraining module 14 as desired by an end user, including plural separatecommunication modules 52 each of which provide a different type ofcommunication. For example, in one embodiment a WWAN transmitter permitssending of text messages to mobile telephone 14 with GPS positioninformation while a WLAN receiver permits reception of shock collarstimulus commands. As another example, a WWAN receiver obtains a timestamp from a cell tower also in use by mobile telephone 14 so that thetimeliness of commands sent through a WLAN interface can be verified atcollar 24—this prevents delayed application of a shock stimulus sent bya WLAN command, which could otherwise correct a dog when the dog is nolonger performing an inappropriate action.

Training module 54 may include a variety of components that supporttraining functions in cooperation with training application 50. Thetraining functions may be in one contiguous housing assembled fromseveral separate housings to allow selection by an end user of desiredfunctions. One example component is a GPS receiver 56, which determinesthe position of collar 24 from a GPS signal and provides the positioninformation to mobile telephone 14 through wireless communication module52. Training application 50 presents the GPS position of collar 24 atdisplay 34 on a map 58 along with the position of mobile telephone 14 sothat the end user can determine the relative position of collar 24 bylooking at display 34. Another example component is an accelerometer 60,which detects movement of collar 24 and issues a point alert in theevent of a lack of movement under predetermined conditions, such as fora predetermined time period, so that wireless communication module 52communicates a point alert to mobile telephone 14. Another examplecomponent is a camera 62, which captures still or moving images of anarea relative to collar 24 where a dog points and provides the images tomobile telephone 14 through wireless communications module 52. In oneexample embodiment, camera 62 is coupled to a dog separately from collar24 and communicates images to collar 24 with a WPAN so that wirelesscommunications module 52 can forward the images to mobile telephone 14.Another example component is a speaker 64, which provides audiblecommands, such as either recorded voice or whistle tweets stored inmemory of collar 24, that a dog wearing collar 24 can hear. Speaker 24may present audible commands, either recorded voice or whistle tweets,provided through a VoIP interface with mobile telephone 24 andcommunicated through wireless communication module 52. For instance, anend user can speak a command audibly captured at mobile telephone 14 andplayed at speaker 64 or may press a button that issues an audiblecommand from memory of mobile telephone 14. Alternatively, speaker 64may present audible commands, either recorded voice or whistle tweets,in response to texts or other data that retrieves the commands from amemory 66, such as a turn or a whoa command. Another example componentis a shock device 68 that applies a shock to a dog that is wearingcollar 24 in response to a command received through wirelesscommunication device 52. In alternative embodiments, alternative typesof positive or negative reinforcements may be used, such as a clickerthat issues clicks, a squirter that squirts a fluid, a vibrator thatvibrates, etc. . . . .

Mobile telephone 14 includes WPAN communication that supportsinteractions with local peripheral devices to give a hunter hands-offinteractions with collar 24. For example, a wireless headset 70 includesan earpiece 72 to play audible sounds in an end user's ears and amicrophone 74 to capture commands by the hunter. Headset 70 interactswith a Bluetooth or other types of WPAN interfaces to communicate withmobile telephone 14. Another example is a wireless handset 76 that hasan armband or other coupling device to make control buttons 80accessible to a hunter in a convenient location distal mobile telephone14. For instance, armband 78 couples to a hunter's wrist or gun toprovide a collar selector that selects one of plural collars 24 at whichto output a shock correction while the hunter's mobile telephone restsin a pocket or safe location. As another example, handset 76 keeps abody count of birds by species to help a hunter avoid violating a gamebag limit. As the hunter gets a bird, the hunter hits a buttonassociated with the species to allow training application 50 to trackthe number of the species taken. When a limit is reached, the hunterreceives an audible warning in earpiece 72: “You have reached yourpheasant bag limit, don't shoot!” Handset 76 can also be used to trackother hunting information including location of points or flushes, watersources, or other geographic features which can be downloaded after thehunt for further analysis. In one example embodiment, the sound of a gunshot picked up by a microphone is recognized by training application 50and automatically marked. At an appropriate time after the gun shot, thehunter is invited to speak a memo of what happened, which is save inassociation with the location. The inquiry may also include a request toupdate the body count. In one example embodiment, if the hunter respondsto a body count inquiry with “shutup,” no additions are made to the bodycount and the hunter is reminded that he should attend church on Sundaysinstead of hunt.

An example of the mobile telephone dog training system 28 in usefollows, but is intended only as an example of how one embodiment of thesystem may be used. A hunter plans a hunt and stores the hunt boundaryin a map 58 of memory 32 of mobile telephone 14 that the hunterretrieves from the Internet. The morning of the hunt, the hunterattaches first and second wireless communication modules 52 to collar 24and puts the collar on his hunting dog. One wireless communicationmodule 52 receives and transmits WWAN communications and the otherreceives and transmits 802.11(n) WLAN communications. The dog isreleased to hunt and disappears in cover. A moment later, accelerometer60 detects that the dog has stopped moving and gone on point. The WLANcommunication module 52 attempts to send a point alert to the hunter butfails to receive a response from training application 50. In response,the WWAN wireless communications module sends a text with the pointalert to the hunter's telephone number. The hunter's mobile telephone 14intercepts the text on its way to the cell tower and also receives thetext message from the cell tower and, in response, issues a point alertthrough a WPAN to an ear piece 72 of wireless headset 70. The textincludes the position of the point included from a GPS component 56 ofcollar 24 so that training application 50 provides the hunter withaudible guidance towards the point position. As the hunter approaches,training application 50 initiates a video conference with camera 62 tocapture an image of the point through WLAN communication device 40. Ifthe point is on a skunk or snake, the hunter touches a control button 80on a handset 76 secured to his wrist with an armband 78 to issue a shockfrom shock device 68. In one embodiment, the image includes infraredinformation to help distinguish varmints from birds. If the point is ona bird, the hunter issues a “WHOA” command from memory 66 or through avoice WLAN interface with speaker 64, such as a VoIP interface. As thehunter approaches the point position, a “flush” alert is issued to allmobile telephones interfaced with the WLAN so that all hunters areprepared. For instance, a training application running on each mobilephone monitors the dog position and the hunter position with WLANcommunication and issues a flush alert when the hunter reaches apredetermined location proximate the dog. After the flush, trainingapplication 50 tracks the body count so that the hunter does not exceedhis allowed bag limit.

Referring now to FIG. 3, an adapter 82 is depicted to accept a mobiletelephone 14 for interacting with a dog collar 24. Adapter 82 forms anopening to accept mobile telephone 14 with a connector 84 aligned tocouple with a port 86 so that a controller 88 can interface withtraining application 50. Training application 50 provides informationand instructions to controller 88 for sending and receivingcommunications with transceiver 92 of adapter 82, such as in a frequencyband not available with the transceivers of mobile telephone 14. Adapter82 includes a battery 90 to boost the charge life of mobile telephone 14and a transceiver 92 to act as an intermediary between mobile telephone14 and collar 24. Transceiver 92 offers improved radio communicationrange and reliability in a number of different ways depending on theuser preference and the environment. For example, transceiver 92provides increased range of communications from WLAN communicationsdevice 40 by amplifying or boosting WLAN signals. Alternatively,transceiver 92 communicates in a different radio band, such as a lowerfrequency band having greater range than the WLAN frequency band, withanalog or digital signals to act as an intermediary communication mediumwhen out of WLAN communication range. In one embodiment, trainingapplication 50 automatically detects the adapter and selects the radioband and protocol to use for communication based upon the range tocollar 24. For instance, training application 50 uses a WLAN interfacewhen the GPS position indicates collar 24 is within WLAN range and usesthe intermediary frequency of adapter 82 when the GPS position indicatescollar 24 is out of WLAN range. Adapter 82 provides a more robust systemfor hunters who desire to spend extra money on the extra feature;however, for many infrequent hunters who use collar 24 for yard work andoccasional hunting trips, a WLAN range of 250 M provides adequate rangeand reliability. In one embodiment, adapter 82 includes a waterproofprotective case to hold mobile telephone 14 in a secure manner. In oneembodiment, a larger sized adapter works for tablet type of devices thatcan include WWAN and WLAN capabilities. In another alternativeembodiment, adapter 82 includes a WPAN so that it can boost the range ofa mobile telephone 14 that is maintained separately and not insertedinto adapter 82. For example, a hunter can strap adapter 82 on his backwith an extended antenna for better range and the adapter communicatesthrough a WPAN with a mobile telephone in the hunter's pocket as if themobile telephone were coupled in adapter 82.

Referring now to FIG. 4, a flow diagram depicts a lock and tone processfor guiding a hunter to a dog on point. The process begins at step 94with detection of a point, such as with an accelerometer or lack ofchange of GPS position. At step 96, an audible point alarm is issued andan image of the point is presented at the mobile telephone display. Inone embodiment, the alert and image is presented from the mobiletelephone by a WPAN communication to glasses that the hunter is wearingalong with a translucent map or a square or dot that indicates thelocation of collar 24 relative to the lens of the glasses. The hunter isthus able to see a map of the dog's position and an indication with ared dot or “target box” of where the hunter should look to see the dogthrough the glasses. At step 98, a determination is made of whether thepoint is a valid point on a game bird species or an invalid point, suchas a point on a non-bird animal (a snake or skunk). If not a validpoint, the process goes to step 100 to issue a correction, such as ashock stimulus, and returns to step 94. If a valid point at step 98, theprocess continues to step 102 to provide directions to the location ofthe point. If at step 104 a determination is made that mobile telephoneposition has moved further from the point position, the processcontinues to step 106 to issue a lower tone sound and then returns tostep 102. If at step 104 a determination is made that the mobiletelephone position has moved closer to the point position, the processcontinues to step 108 to issue a higher tone sound and then returns tostep 102. Alternatively, directions at step 102 can present as computergenerated audible directions, such as turn left or right, or flush in 10yards.

Referring now to FIG. 5, a side view depicts an example embodiment ofadapter 82 for providing UHF and VHF frequencies and that interacts witha wireless telephone 14 through a WPAN for relaying information to andfrom a dog collar 14. Wireless telephone 14 includes a trainingapplication as set forth above, such as to present a GPS position at adisplay that is provided from a collar 24 to an adapter 82 and thenthrough a WPAN interface to mobile telephone 14. Adapter 82 includes aBluetooth module 110 to provide WPAN functionality for communicationwith a Bluetooth transceiver of mobile telephone 14. A processor 112,such as a low power ARM integrated circuit, executes instructions storedin a flash memory 114 to perform adapter functions as set forth aboveand below. In one embodiment, ARM processor 112 is an embeddedcontroller for Bluetooth module 110 that provides processing support forother functions as described herein. A USB port 116 interfaces withprocessor 112 to allow programming of instructions in memory 114, suchas updates and patches; to retrieve information from memory 114 to anexternal device, such as a history of GPS positions tracked from collars24; and to charge a battery of adapter 82. In the example embodiment,adapter 82 has the footprint of a pen or marker to fit in a pocket and atelescoping antenna 118 that slides over a housing 120 of adapter 82 toprovide protection when adapter 82 is not in use. For instance, an enduser carries adapter 82 in a shirt pocket like a pen until ready foruse, and then extends telescoping antenna 118 and places adapter 82 in ahat band or other holder that maintains antenna 118 in an elevatedposition for improved radio reception and transmission range. In oneembodiment, adapter 82 includes a GPS receiver of its own and providesan adapter position to mobile telephone 14 so that mobile telephone 14can use the adapter position instead of or in combination with a GPSposition determined by a GPS receiver in the mobile telephone.

Manual input buttons 122 are disposed on housing 120 of adapter 82 toaccept touch inputs from an end user and report the touch inputs throughBluetooth module 110 to a mobile telephone 14 or dog collar 24, orthrough a wireless communication module 52 to a dog collar 24. Manualinput buttons 122 are manually programmable by an end user to havevarying functions that fit the user's desires based upon operatingconditions of adapter 82, mobile telephone 14 and dog collar 24. Forinstance, an end user defines a close-in display presentation for whencollars 24 are in close range, such as Bluetooth range, and a distaldisplay presentation for when collars 24 are distant, such as outside ofBluetooth range. One of the manual input buttons 122 provides a hot-keythat an end user touches to select the close-in or distal displaypresentation. As another example, an end user defines a first displaypresentation showing a compass and a full screen map with dog positionsand a second display presentation with a half-screen map with dogpositions and a half-screen with statistics, such as bag limits andkills for the day. The user prepares various display presentations atmobile telephone 14 and mobile telephone 14 provides the selectedpresentations when a Bluetooth communication from adapter 82 indicatesan end user input at a button 122 to hot-toggle between displaypresentations. Alternatively, a selected presentation is made based upona distance to collar 24, such as the compass and full screen map ifcollar 24 is outside of Bluetooth range and the half-screen withstatistics if the collar is within Bluetooth range.

In one example embodiment, wireless communication module 52 disposed inadapter 82 includes a 900 MHz transceiver to provide moderate range of amile or less and a 150 MHz transceiver to provide increase range ofgreater than a mile. In an alternative embodiment, a Silicon LabsEZRadio Si446X transceiver provides a selectable range of frequenciesfrom 119 MHz to 1 GHz and transmits at a frequency set by mobiletelephone 14 based in part upon distance to a dog collar 24. Forinstance, the transceiver steps between 900 MHz and 150 MHz based uponrange to collar 24, signal strength from collar 24 and interferencereceived from other transceivers. The use of either Bluetooth, 900 MHz,150 MHz or other frequency signals to communicate with dog collar 24 isselected based upon logic running on processor 112 or logic running onmobile telephone 14 that provides control instructions through Bluetoothcommunications to processor 112. In one embodiment, an end userpreselects frequencies at mobile telephone 14 for use by adapter 82 atvarious ranges so that plural systems operating in the same area havefrequency ranges for use that are away from each other to avoidinterference. For instance, one mobile telephone adapter 82 uses 850 MHzwith range of less than one-half mile and 145 MHz with range of greaterthan one-half mile; another nearby mobile telephone phone adapter uses900 MHz with range of less than one-half a mile and 150 MHz with rangeof greater than one-half a mile. A mobile telephone associated with eachadapter communicates with each other in an ad hoc peer-to-peer 802.11(n)network to maintain frequency separation by defining for each other thefrequency assigned for use by each mobile telephone's adapter.Alternatively, the mobile telephones 14 communicate with an ad hocpeer-to-peer network to establish the use of common frequencies indifferent time slots to avoid interference yet allow monitoring of eachother's collars. In one embodiment, frequencies and time slots aredetermined beforehand and separately stored in each mobile telephonewith coordination provided by a computer application. For example, anXML file stores time slots, frequencies, collar identifiers and mapcoordinates for plural mobile telephones 14 so that each mobiletelephone can download and apply the information at the time of a hunt.For instance, a website stores plural XML files that end users candownload to apply desired configurations, such as based on the number ofmobile telephones and collars, to have a preconfigured hunt withassigned frequencies and time slots for each collar and mobiletelephone. On the start of a hunt, the mobile telephones distribute thepreconfigured assignments to the collars with Bluetooth communications.

Referring now to FIG. 6, an example is depicted of a mobile telephone 14interacting with an adapter 82 and a collar 24 through plural radiofrequencies, such as under management of a training application as setforth above. Upon initial setup, mobile telephone 14 pairs withBluetooth to both adapter 82 and dog collar 24. Mobile telephone 14retrieves identifiers from adapter 82 and dog collar 24 so that thedevices are automatically configured to communicate with each otherusing the wireless communication module 52, such as a packet header orother identifier to link adapter 82 with collar 24 and a frequencyassignment for both devices to use in mid and low frequency ranges. Inone alternative embodiment, initial configuration may be performed witha near field communication (NFC) device in mobile telephone 14, adapter82 and collar 24. Initially, dog collar 24 provides GPS information toboth adapter 82 and mobile telephone 14 with the Bluetooth pairing.Bluetooth communications consume minimal power and provide a range ofaround 10 M so that during the initial phase of a hunt while the dogsare in close to mobile telephone 14, battery consumption of dog collars24 is reduced relative to communications in other frequencies. In onealternative embodiment, GPS positions are not provided from collar 24 tomobile telephone 14 when Bluetooth pairing exists since the distance issmall. In another embodiment, with the exception of an initial test toensure operability of adapter 82, mobile telephone 14 commands adapter82 through a Bluetooth communication to remain idle while mobiletelephone 14 has Bluetooth pairing and communication with dog collar 24.Although Bluetooth is rated as having a range of 10 M, thecommunications take place at 2.4 GHz, the same as a WLAN 802.11 (b or g)communication, and thus may work at greater effective ranges to provideGPS coordinates from dog collar 24 directly to mobile telephone 14 whena dog is hunting close in or when a hunter approaches a dog, such as adog on point. Further, in one example embodiment, the Bluetooth signalmay be amplified from dog collar 24 to increase Bluetooth range tomobile telephone 14, such as by providing a higher strength signal asdistance increases based upon GPS coordinates analyzed at mobiletelephone 14 or collar 24.

Once dog collar 24 reaches the limit of Bluetooth communication directlywith mobile telephone 14, such as when a dog ranges out to starthunting, mobile telephone 14 initiates adapter 82 with a Bluetoothcommunication to adapter 82 so that a mid-frequency may be used tocollar 24, such as communication with a 900 MHz radio. Adapter 82initiates communication with dog collar 24 through the mid-frequency toretrieve GPS coordinates from dog collar 24 and provides the GPScoordinates to mobile telephone 14 through Bluetooth communications. Ifthe signal strength of the mid-frequency transceiver communicationsbetween dog collar 24 and adapter 82 becomes weak or the GPS coordinatesof collar 24 relative to adapter 82 indicate a range at the outside ofthe mid-frequency range, then mobile telephone 14 initiates the use of alow-frequency, such as 150 MHZ, by adapter 82 to dog collar 24. Adapter82 sends a frequency change command in the mid-frequency range to dogcollar 24 so that dog collar 24 can reset the frequency with a matchingtransceiver. As range decreases between adapter 82 and dog collar 24,such as when a hunter approaches a dog on point, mobile telephone 14returns adapter 82 and collar 24 to the use of the mid-frequencyfollowed by the Bluetooth communications for obtaining GPS coordinatesfrom dog collar 24. An advantage of using a mid-frequency is that ittends to consume less power and communicate more information than alower frequency. In addition, mid and low frequencies have differentcharacteristics so that one may work better than the other underdifferent operating conditions, such as caused by weather, water,terrain, cover, etc. . . . . Further, in areas where a number of huntersare using mid or low frequencies, the availability of a second (or othertunable) frequency band will improve system reliability by decreasinginterference.

Referring now to FIG. 7, a flow diagram depicts a process fordetermining a frequency for communication with a dog collar 24. Forexample, the process is provided by a training application executing ona mobile telephone 14 as set forth above. The process starts at step 124with a pairing of Bluetooth transceivers located in mobile telephone 14,adapter 82 and collar 24. During pairing, configuration information isprovided between the devices to enable communication of GPS positionfrom collar 24 to adapter 82 and then to mobile telephone 14 forpresentation at a display of mobile telephone 14. For example, anidentifier for each device is provided to the other devices so thatmobile telephone 14 can track GPS positions for the desired collar orcollars 24. During pairing at step 124, a test may be performed toconfirm operation of wireless communication module 52 for communicationbetween adapter 82 and collar 24 to ensure that the desired frequenciesare operational, such as frequencies selected for use by the hunter thatday. Once pairing is complete, Bluetooth communications are maintainedbetween mobile telephone 14, adapter 82 and collar 24 whileBluetooth-compatible ranges are maintained. Maintaining communication byBluetooth through the early part of the hunt reduces power consumptionby adapter 82 and allows automated activation of adapter 82 once pairingwith collar 24 is lost or when Bluetooth communication of GPScoordinates indicates a threshold range, such as greater than 10 M.Hunters thus do not have to manually place systems on and standbybetween hunts, and power is preserved by avoiding mid and low frequencytransmissions when not necessary. At step 126, a determination is madewhether Bluetooth pairing is maintained with dog collar 24 by adapter 82or mobile telephone 14. If yes, the process returns to step 124 tocontinue monitoring GPS coordinates by Bluetooth communications. If no,the process continues to step 128 to activate adapter 82. In one exampleembodiment, transition from Bluetooth communication to adaptercommunication and back to Bluetooth communication may be aided byapplying GPS coordinates of collar 24 compared to GPS coordinates ofmobile telephone 14 to determine when Bluetooth range has reached alikely limit. When accurate range information is available so thatadapter 82 uses wireless communication module 52 to communicate with dogcollar 24, the Bluetooth transceiver or collar 24 may be idled to stoptransmitting, thus saving additional power while the range betweenmobile telephone 14 and dog collar 24 is too great to communicate withBluetooth. Once GPS coordinates of collar 24 and mobile telephone 14indicate a Bluetooth compatible range as indicated by communicationsbetween adapter 82 and collar 24, Bluetooth transmissions may resume andtransceiver 52 may be powered off.

At step 128, a determination is made of the frequency that adapter 82will use to establish communications with dog collar 24. In oneembodiment, the frequency is determined in mobile telephone 14 and sentby a Bluetooth communication to adapter 82. For example, upon initiallyleaving Bluetooth range, a mid-frequency is selected for adapter 82. Asrange between adapter 82 and collar 24 increases, a transition to alow-frequency is performed based upon a number of factors, including:distance determined from GPS coordinates, signal strength, vector (speedand direction) of collar relative to frequency range capabilities,interference from other radios, etc. . . . . Similarly, as range betweenadapter 82 and collar 24 decreases, a transition to a mid-frequency froma low frequency is performed. In one alternative embodiment,determination of the frequency for adapter 82 may be made with logicoperating on adapter 82. For instance, when mutual communication betweenadapter 82 and collar 24 has not taken place for a predetermined timeperiod, a recovery frequency is selected to attempt to establish mutualcommunication. In one embodiment, the timing of the recovery frequencyattempt is based upon GPS clock signals so that power at collar 24 andadapter 82 is not needlessly wasted attempting to re-establishcommunications. At step 130, communications are performed at thedetermined frequency. At step 132, a determination is made of whetherBluetooth communications are re-established. If so, the process returnsto step 126. If not, the process returns to step 128 to re-verify thefrequency for use by adapter 82 to communicate with collar 24. When anew frequency is selected, the frequency is passed to collar 24 with theexisting frequency so that communications are re-established on the newfrequency.

Referring now to FIG. 8, an example embodiment is depicted of a systemthat tracks multiple dog collars 24 at one or more mobile telephones 14using one or more adapters 82. Management of the multiple dog collars isperformed, for example, by a training application running on one or moremobile telephones 14 as set forth above. In one example embodiment, thetraining application distributes logic and communication parameters toadapter 82 and collar 24. If one or more collars 24 are within Bluetoothrange of each other, then the collar 24 having the most battery power isselected to use mid or low frequency communication with adapter 82 whilethe other collars 24 have their transceivers in sleep mode to savepower. The selected collar 24 retrieves GPS positions from the dogcollars within Bluetooth range and sends the GPS positions to adapter 82so that only one collar 24 drains its battery with mid or low frequencycommunications. Alternatively, only one GPS position is sent from theselected dog collar along with the identifiers of all collars 24 thatare in Bluetooth range so that mobile telephone 14 can track eachidentifier as in the same proximate location. In alternativeembodiments, GPS positions and collar identifiers may be relayed usingmid and/or low frequency transmissions between various collars 24 andadapters 82 so that each mobile telephone 14 can track all dog collars24. In one example situation, if a dog is on point and another dog ishonoring the point, GPS position information is sent from only one doguntil flush is approached by a hunter, such as at issuance of a flushalert, at which time each collar 24 sends GPS information to protect thesafety of each dog. For instance, if a hunter is positioned to shoot inthe direction of a dog at flush, a warning may issue to an earpiece orwith a phone ring to help prevent harm to the dog: “Don't shoot Jewellocated ten meters north of your current position.”

Referring now to FIG. 9, a variety of examples are depicted that provideimproved battery life and reduced radio interference in huntingsituations with multiple dogs and hunters. For instance, a trainingapplication executing on a mobile telephone 14 as set forth abovemanages battery life and transmission interference by managing operationof adapter 82 and collar 24. Transmissions from collar 24 consume powerfrom an internal battery so that more frequent transmissions result inshorter charge life for a given size battery. By reducing transmissionsfrom collar 24, battery charge is conserved so that a smaller batterywill support a collar for a given operating time. Further, reducednumbers of transmissions result in less bandwidth consumption so thatless interference occurs in situations where multiple collars 24 and oradapters 82 are deployed. Less interference generally means thattransmission attempts have a greater chance of success, thus furtherreducing the need for transmissions, such as repeated transmissions ofthe same data. To provide reduced transmissions, collar 24 and adapter82 use logic to divide transmissions from each of plural collars 24 andadapters 82 into plural time slots. In one embodiment, a GPS clock isused as a reference point from which time slots are defined so that aninternal clock on each device can precisely track its time slot fortransmitting and receiving information relative to other devices. Inaddition, logic on collar 24 analyzes GPS position data andaccelerometer data locally at collar 24 or in combination with mobiletelephone 14 to limit transmissions where changes in position arerelatively insubstantial. For instance, in an example embodiment, atperiodic time slots, collar 24 only transmits if GPS data shows a changein position of greater than a minimum amount, such as 5 M, or if achange in acceleration indicates a change in position relative to whatthe mobile telephone 14 monitoring collar 24 would expect over the time.Accurate position data is maintained at the mobile phone 14 by providingupdates at minimum intervals, such as every minute. Accurate estimatedpositions are maintained at mobile phone 14 by applying accelerometerand orientation information (such as a velocity vector) provided fromcollar 24 (or alternatively GPS position data from collar 24 analyzed bymobile telephone 14 for change over time to estimate a velocity vector)to estimate positions with a virtual inertial navigation system (INS)between collar transmissions.

In the example embodiment depicted by FIG. 9, a first set of collars 24labeled (1-n) is controlled by a first adapter 82 and first mobiletelephone 14. A second set of collars 24 labeled (a-n) is controlled bya second adapter 82 and a second mobile telephone 14. The first andsecond mobile telephones 14 establish an ad hoc network withpeer-to-peer communications using 802.11(n) to define time slot andfrequency assignments for each adapter 82 to communicate with each setof collars 24. The first adapter 82 has a time slots t1 though tn witheach time slot having an adequate length for a collar 24 to communicateGPS, accelerometer and/or other desired data. The time slots are definedrelative to a GPS clock signal and tracked with an internal clock ateach device, such as with a processor that controls a Bluetoothtransceiver. The GPS clock signal also provides synchronization forcommunications between mobile telephones 14 in support of the ad hocnetwork. The time slots t1 through tn are sequentially defined so thatadapter 82 activates its transceiver from sleep to listen across alltime slots and then sleeps until the start of the next time slot period.Time slot periods may occur at regular intervals and/or at times definedrelative to a GPS clock so that collars 24 know when to transmit toadapter 82. Collars 24 transmit in an assigned time slot if positionupdates have at least a minimum change or if a maximum time has elapsedsince a previous transmission; otherwise, collars 24 keep theirtransceivers in a sleep mode to reduce power consumption. In oneembodiment, collars 24 listen for a transmission from a collar in aprevious time slot and initiate communication when the previous collarcompletes communication. In another embodiment, a collar 24 sleeps itstransceiver 52 to reduce power consumption except during a time slotassigned to the collar. As an example each time slot t1 through tn lastsfor one second with a one second idle time between each time slot untiltn plus one second, then adapter 82 idles for 15 seconds from t1 basedupon a GPS clock signal, after which adapter 82 awakens to repeatlistening. Collar 24 remains idle up to five minutes unless a change inposition or acceleration is detected, in which case a transmission ismade during an assigned time slot. Adapter 82 has frequent “listening”times available to accept communication in a prompt manner when needed,such as at detection of a point, so that a collar 24 can communicate ina time slot when needed without an excessive delay. When a change inposition or acceleration is detected, or five minutes has elapsed sincethe last collar transmission, collar 24 then transmits during a timeslot assigned to it, such as based upon a reference to a GPS clocksignal provided by a GPS transmission shared by a GPS receiver of collar24 and mobile telephone 14. In one example embodiment, a collar 24powers up its transceiver at predetermined “listen” times to receiveposition requests from an adapter 82. If adapter 82 requests a positionupdate during a listening time, collar 24 responds with a position;otherwise, collar 24 saves power by avoiding unnecessary transmissions.

After the first mobile telephone 14 adapter 82 completes listening inits time slots, first adapter 82 may sleep its transceiver or,alternatively, may listen during the time slots assigned to the secondadapter 82 so that first mobile telephone 14 can independently trackcollars 24 assigned to second mobile telephone 14 adapter 82. Similarly,second mobile telephone 14 can independently track collars 24 assignedto first mobile telephone 14. If mobile telephones 14 have too great adistance to communicate between each other with 802.11(n) or Bluetooth,then communications may take place between mobile telephones 14 throughmid or low frequency transmission through adapters 82. If differentfrequencies are assigned to each adapter 82 for its collars 24, then anadapter 82 changes to the frequency of the other adapter 82 whenlistening for collars 24 in time slots managed by the other adapter 82.The overall effect of the use of time slots is that adapters 82 listenfor transmissions from collars 24 at more frequent intervals thancollars 24 transmit information, which may increase power consumption atadapters 82 relative to collars 24 but tends to decrease powerconsumption at collars 24 so that a smaller battery may be used atcollar 24 to allow a smaller collar footprint than would be possible ifcollar 24 simply transmitted at regular intervals. Additional powersavings may be achieved by adjusting the power used to transmit fromcollar 24. For instance, adapter 82 provides feedback to collar 24 ofthe signal strength received at adapter 82 and/or the distance betweenadapter 82 and collar 24. Collar 24 applies the feedback to adjusttransmitter power settings, such as by reducing transmitter power whenadapter 82 reports receiving a strong signal at a short distance orincreasing transmitter power when the signal received by adapter 82falls below a threshold.

Referring now to FIG. 10, an example embodiment depicts a collar 24 thatapplies logic to selectively communicate position information in orderto reduce the number of transmissions from collar 24 and thus savepower. For instance, a training application running on a mobiletelephone provides logic to a collar 24 for execution on collarprocessor 112 to manage transmissions from collar 24 to an adapter 82.Accelerometer 60 includes gyroscopes to provide measurements ofaccelerations and the orientation of accelerations at collar 24, such aswith a three axis MEMS-type device that has three gyroscopes alignedwith three accelerometers. In one example embodiment, a lack ofacceleration indicates a dog at point so that collar 24 makes lessfrequent position transmissions to save power since the collar'sposition does not change. If a lack of accelerations is replaced by newdetected accelerations that indicate a point has ended, thentransmissions are re-initiated to update mobile telephone 14 regardingposition.

In one example embodiment, accelerometer 60 provides acceleration andorientation information to an integrator 134, which analyzes theacceleration and orientation information to determine a velocity vectorat collar 24. Integrator 134 may execute as software on collar 24 or asa specialized hardware component interfaced with accelerometer 60.Integrator 134 may simplify generation of a velocity vector based uponthe type of motion being tracked. For example, a running dog will haverepeated pattern of motion that includes outlier accelerations when theoverall running vector changes, such as with a turn or change in speed.Integrator 134 in one embodiment uses averaging of accelerations toidentify outliers that allow generation of an average velocity vectorfor a given time period. In another example embodiment, when trackingmotion of a dog or other moving animal, a constant acceleration ofgravity alone indicates zero average velocity. In contrast, whentracking motion of an inanimate object, such as car, a constantacceleration of gravity alone may indicate a constant speed.

A GPS signal evaluator 136 analyzes the velocity vector (oralternatively the acceleration and orientation information itself) andGPS positions from GPS 56 to determine whether to transmit GPS orvelocity vector (or raw acceleration/orientation information)information from collar 24 to adapter 82 or to maintain a sleep modewith the collar transceiver. If, for instance, a velocity vectorassociated with collar 24 remains relatively constant, then lessfrequent position transmissions are provided to mobile telephone 14since mobile telephone 14 can apply the velocity vector to estimatecollar position with relative accuracy. The velocity vector used bymobile telephone 14 to estimate position may be provided from collar 24,may be determined at mobile telephone 14 from acceleration andorientation information provided from collar 24, or may be estimated bymobile telephone 14 from GPS positions provided by collar 24 over time.If, in contrast, a velocity vector associated with collar 24 changes bya predetermined amount, then more frequent position transmissions areprovided to mobile telephone 14, including updated velocity vectorinformation. As another example, if a GPS signal becomes weak so thatGPS position is unreliable, such as may happen under dense foliage, GPSsignal evaluator withholds GPS position information and sends morefrequent velocity vector (or alternatively acceleration and orientationinformation) to mobile telephone 14 so that a virtual inertialnavigation system (INS) 138 executing on mobile telephone 14 can trackcollar position with INS logic based upon accelerometer and gyroscopeorientation measurements taken at collar 24 and transmitted to mobiletelephone 14, such as in the form of a velocity vector. In oneembodiment, GPS signal evaluator 136 applies an end user accuracy/powerpreference setting to determine how often to transmit positioninformation; a higher accuracy preference with more frequenttransmissions will consume increased battery charge resulting in reducedbattery life. In another embodiment, GPS signal evaluator 136 attemptsto detect a GPS jamming signal. A GPS jamming signal may be used byindividuals who wish to disable GPS position data, such as to steal adog or another item monitored by a GPS receiver. If a GPS jamming signalis detected, then a virtual INS position may replace the GPS position,such as a virtual INS position derived from acceleration and gyroscopedata detect at the GPS receiver. The virtual INS position may be locallydetermined by a processor couple to the GPS receiver or alternativelymay be determined at a distal location by sending raw acceleration andgyroscope data to a distal processor, such as the processor of asmartphone as described herein.

Referring now to FIG. 11, a flow chart depicts one example of logic fordetermining when to communicate position information from a collar 24.The process starts at step 140 with a determination of whether thecollar 24 is on point or otherwise immobile. If yes, a point alertissues upon initial determination of the point and the process continuesto step 142 to determine if a minute has passed since the lasttransmission from collar 24. If a minute has not passed, the processreturns to step 140. If a minute has passed at step 142, then a positiontransmission is made at step 148 and the process returns to step 140. Ifthe point determination at step 140 is no, the process continues to step144 to determine if a velocity vector change has occurred based uponsensed accelerations and orientations. If a velocity vector change hasnot occurred, the process continues to step 142 to determine the lasttransmission as set forth above. If a velocity vector change hasoccurred, the process continues to step 146 to determine if a measuredGPS position has changed by greater than a predetermined amount, such as10 M. If not, the process continues to step 142 to determine whether tomake a transmission as set forth above. If yes, the process continues tostep 148 to make a transmission. In one example embodiment,transmissions are made during defined time slots during which adapter 82is awake to receive the transmissions, such as every 10 seconds basedupon a GPS clock reference that improves accuracy in defining the timeslot. In one alternative embodiment detection of a vector change caninitiate a transmission at step 148 even where GPS position has notchanged beyond a minimum amount. This provides positive updates basedupon activity associated with the dog that may indicate a chase or aninaccurate GPS position signal. In one alternative embodiment, positioninformation is transmitted from collar 24 based upon a change inposition of greater than a threshold amount from the last transmittedposition, such as every time the collar moves 10 M or greater from alast transmitted position. This updates positions when positions changeand saves power by avoiding transmissions from a collar 24 when aposition has not changed enough to warrant an update to a trainingapplication.

FIG. 12 depicts one example of a modular collar 24 adapted for use witha shock device 68, such as to enforce a GPS fence boundary 12. Collar 24has a first portion 150 that contains processing components for managingposition data and performing radio transmissions, and a second portion152 for providing power with a battery 154. In the example embodiment, ashock device is included with the second portion 152, however, inalternative embodiments second portion 152 provides a removable battery154 without a shock device that can have a smaller footprint where poweris only needed for first portion 150 and not needed for a shock device68. First portion 150 interfaces with second portion 152 with opposingmini-USB ports 156 that allow battery 154 to power first portion 152 andallow a processor of first portion 152 to control shock device 68. UsingUSB ports 156 for interfacing first portion 152 with second portion 154conveniently allows logic and charging interfaces with each portion byUSB devices, such as a laptop computer that charges battery 154 andaccesses flash memory 66 of first portion 150. First portion 152includes a Bluetooth module 110 and ARM processor 112 that controlsBluetooth operations. A wireless communication module 52 interfaces withprocessor 112 to communicate with adapter 82 using mid and/or lowfrequency signals as described above. An external computer interfacedthrough a USB port 156 of first portion 150 can store coordinates ofboundary 12 for access by processor 112 so that processor 112 can issuea shock by shock device 68 if collar 24 approaches a boundary.Alternatively, Bluetooth communications from an external computer canstore the boundary coordinates in flash memory 66.

Advantageously, collar 24 maintains minimal power consumption whilemonitoring position with GPS 56 because no transmissions are made bywireless communication module 52 as long as collar 24 remains within theGPS coordinates boundary 12 stored in flash memory 66. If collar 24approaches a boundary 12 defined by GPS coordinates in flash memory 66,then shock device 68 issues a stimulation to motivate the dog to returnto the boundary. In one embodiment, a voice command issues from collar12, such as a whoa command stored in flash memory 66 and played at aspeaker of collar 12, so that the dog stops moving. Stimulation issuesat shock device 68 if the dog fails to whoa. Along with the whoacommand, the processor 112 initiates communication through wirelesscommunication module 52 to issue a warning to an end user that the doghas approached and/or breached boundary 12. If collar 24 is withinextended Bluetooth range, the warning may issue with a Bluetooth or an802.11(b, g or n) signal to a computer device or mobile telephone 14 ofthe end user. Alternatively, wireless communication module 52 remainspowered down until a boundary 12 is approached or breached and thentransmits through low or mid frequency ranges as described above toallow an end user to locate collar 24 with the GPS position received byan adapter 82 and forwarded to a mobile telephone 14 or other computingdevice. In one embodiment, adapter 82 stores GPS positions andacceleration information so that an end user can recall at a later timethe direction taken by collar 24. In another embodiment, once a collar24 breaches a boundary 12, a recovery signal with the GPS position isissued at regular time intervals from wireless communication module 52of collar 24 based upon a GPS time signal or other clock to synchronizetransmission of signals from collar 24 with reception of signals byadapter 82. For instance, collar 24 issues a signal at 15 secondintervals on four different frequencies in sequential order each minuteto ensure that interference does not impede signal transmission. Adapter82 knows the frequency to listen to on each 15 second interval basedupon a GPS clock signal available to both adapter 82 and collar 24 thatensures synchronization with an internal clock, such as a clocksupported by processor 112. In an alternative embodiment, collar 24listens at the 15 second intervals without transmitting unless atransmission is detected from adapter 82 that commands a transmission ofposition information from collar 24; this allows collar 24 to preservebattery charge for a longer time period. Other power savings techniquesmay be used at collar 24 as described above, such as only transmitting aposition if the position changes by more than a threshold from the mostrecent position transmitted by collar 24 and received by an adapter 82,such as by sending a confirmation of position reception from adapter 82to collar 24. In summary, collar 24 maintains a low power mode while adog remains in boundary 12 by executing instructions on processor 112without communication with external devices and then initiates atransceiver when a dog breaches the boundary 12 to provide a warning andposition information to an adapter 82 for presentation at a mobiletelephone 14 or other computing device. An end user is able to monitor adog's position for lengthy time periods with minimal battery dischargeby avoiding communications until position information is needed becausethe dog has left a proscribed area.

In various embodiments, various portions of the collar, adapter,training application and virtual INS may be used in different ways,alone and in combination with each other. As an example, although collar24 is presented in the context of a dog collar, similar use is made withmonitoring of children, such as by attaching a collar 24 to a child as awrist bracelet, ankle bracelet or necklace. A parent can set parametersto issue warnings, for example, if a child leaves a park, school,shopping center, athletic event, etc. . . . . A parent can monitor forsudden accelerations that might indicate an injury to a child, or avelocity vector towards a busy street, and obtain immediate oralwarnings in an earpiece having a Bluetooth interface with a mobiletelephone 14. For instance, a high g-force detected by an accelerometertriggers an “injury” alert for the parent similar to the point alert fora dog. Monitoring by adapter 82 provides an inexpensive alternative totracking devices that require cell phone service. A virtual INSoperating on a mobile telephone based upon acceleration and orientationinformation provided from a collar allows a parent to monitor a child'sposition during indoor activities where GPS reception is sometimesintermittent. Power savings techniques set forth above allow a collar 24to have a small footprint that a child can wear a collar with relativecomfort and minimal interference with the child's activities. Further, aspeaker and microphone on the collar can provide the parent withimmediate voice access and the ability to listen to the child'senvironment when appropriate by interfacing through adapter 82 or an adhoc peer-to-peer communication with 802.11(b, g or n). As anotherexample, adapter 82 interfaces with any device that receives WPANcommunications, such as Bluetooth, including laptops, tablets or desktopsystems. For example, a parent wearing Google Glass obtains a GPSposition of a collar 24 from adapter 82 with a Bluetooth communicationand can present at the glass a box over the position of the child so theparent can quickly obtain a visual of the child. Virtual INS may trackinanimate objects, such as packages or items subject to theft and canissue a theft alert in the event of a sudden acceleration. Mobiletelephone 14 may have adapter 82 integrated within its housing toprovide a mobile telephone 14 with integrated adapter functionality.Alternatively, mobile telephone 14 may alter operation of existinghardware, such as firmware that executes 802.11(b, g or n) or Bluetoothcommunication, to provide communications at various tunable frequenciesin the place of an adapter 82. Other alterations to the described dogcollar, adapter, mobile telephone embodiment are contemplated as desiredto track items as desired by an end user.

Referring now to FIG. 13, an example is depicted of a collar 24 adaptedto correct GPS position within a boundary by reference to images offeatures within the boundary taken by a camera 62 in the collar.Although a good quality GPS receiver will provide reasonably accuratepositions, variances of several meters between measured and actualpositions fall within normal operating specifications, and accuracyoften depends of reception qualities that are difficult to predict inadvance. If a shock device on collar 24 is used to maintain dog 20within a boundary based upon detected GPS position, dog 20 may receiveshocks even at positions that are within the boundary due to errors inthe measured GPS position. To improve the accuracy of GPS measurements,camera 62 captures an image of the area in front of dog 20 and aposition correction unit 160 compares the image with expected featuresbased upon the detected GPS position and corrects the GPS position tohave consistency with the images captured by camera 62. In someinstances, a marker 162 is placed at known positions to provide acorrection for the GPS position detected by the GPS receiver. Marker 162may have a text or barcode presented to be read by camera 62 so thatanalysis of the image provides the GPS position by reading the text withan optical code reader or the barcode with a barcode reader. Further,marker 162 may include markings that aid evaluation of an image ofmarker 162 to determine how far from marker 162 the image was taken. Asan alternative, the user may walk collar 24 with the camera 62 alignedto capture images at the boundary for later reference. Anotheralternative embodiment compares images captured by camera 62 withsatellite images of landmarks proximate to the boundary to aid detectionof appropriate markers, such as rocks, fences, water, roads, trees, etc.. . . . Camera 62 may be a depth camera that measures distance toobjects or separate cameras at different locations that measure relativeangles to resolve distance to objects. Although position correction unit160 is depicted as included in mobile telephone 14 so that images sentfrom the collar are analyzed at mobile telephone 14, in alternativeembodiments position correction unit 160 may run on a processor withincollar 24 to analyze images at collar 24 and may use a variety of otherimage recognition methods to resolve objects found and expected in theboundary as set forth above.

Referring now to FIG. 14, a flow diagram depicts an exemplary method fortracking GPS positions from a collar with WPAN and VHF radiocommunications to conserve battery power. In the example embodimentdepicted by FIG. 14, the WPAN is a Bluetooth Low Energy (BLE) interfacebetween an adapter and a mobile telephone or tablet device and one ormore collars and the mobile telephone or tablet device. BLE provides alow power consumption wireless interface by establishing intermittentconnections at timed intervals in the 2.4 GHz band. Although BLEmaintains low power consumption, it also provides limited range ofbetween 10 and 30 M. In contrast, VHF communications in the 154 MHz bandprovides an extended line of sight range with transmissions in theunlicensed public bands allowed at up to 2 W. The process depicted byFIG. 14 is executed as logic on the mobile telephone, adapter and/orcollar device to take advantage of reduced power consumption availablewith WPAN communications.

The process begins at step 164 with a BLE connection between the collarand the mobile telephone. In an alternative embodiment, step 164 may beaccomplished without a formal connection, such as by broadcastingposition information from the collar as an advertisement that the mobiletelephone does not connect with. Alternatively, collar BLEcommunications may be monitored by the adapter with a connection or bymonitoring collar broadcasts and then forwarded from the adapter to themobile telephone by BLE. In one embodiment, communication of GPSposition by BLE is sent in a broadcast by the collar using truncated GPSvalues as described herein. Truncating the degrees and at least some ofthe minute values allows both latitude and longitude values to fit in asingle BLE packet. Truncated GPS values may be used by an application onthe mobile telephone with a preamble sent when higher degree and minutevalues change or under the assumption that the collar is within BLErange so that collar values are close to mobile telephone GPS values, asset forth below. At step 166, after a BLE connection is initiallyestablished between the collar and the mobile telephone, GPS position issent from the collar to the mobile telephone. At step 170, adetermination is made of whether the collar GPS position is valid and,if not, the process continues to step 170 to send hot start informationfrom the mobile telephone application to the collar to aid in a morerapid GPS position acquisition. For example, the mobile telephoneprovides its GPS position, GPS clock and GPS ephemeral data to thecollar receiver. In one embodiment, the hot start information isretrieved from a website service, such as that provided by Ublox. In analternative embodiment, the hot start information is extracted from aGPS receiver running on the mobile telephone. Such an extraction allowshot starts where the mobile telephone does not have an Internetinterface to obtain ephemeral data from a web service.

At step 172, once the collar has a good GPS position, a test VHFtransmission is performed to ensure good VHF communication. At step 174,GPS position data from the collar is sent to the mobile telephoneapplication by BLE at desired intervals, such as every BLE connectioninterval or at a time interval just prior to a planned VHFcommunication. At step 176, a determination is made of whether eachcollar has a BLE disconnect, such as by a disconnect event or a failureto obtain GPS data by BLE. If the BLE position update is successful andthe BLE connection is maintained, the process returns to step 174 tocontinue updates of GPS position from the collar to the mobile telephoneby BLE. If at step 176 a BLE disconnect is detected or the BLE GPScommunication fails, then the process continues to step 178 to updateGPS position with a VHF transmission by the collar to the adapter and aBLE communication from the adapter to the mobile telephone application.The process continues to step 180 to determine if a BLE connection isre-established. For example, upon having a BLE disconnect, the collarinitiates advertising to attempt a re-connection by BLE with the mobiletelephone application. In one embodiment, advertisements are atintervals of 10 to 30 seconds to reduce power consumption. If a BLEconnect is detected at step 180, the process returns to use BLE for GPSupdates. If a BLE connect is not detected, the process returns to step178 to continue GPS updates with VHF communications. In one embodiment,when BLE communications of GPS position are at the outer rangessupported by BLE, VHF communications may take place with BLE so that GPSpositions communicated by BLE are confirmed.

Referring now to FIG. 15, a flow diagram depicts an exemplary method formanaging power consumption of a mobile telephone or tablet device thattracks GPS positions from a collar and/or adapter with WPANcommunications. In the field, excessive power usage of the mobiletelephone can prevent presentation of GPS position to an end user if toomuch battery power is consumed at the mobile telephone. An applicationrunning on a mobile telephone or tablet that tracks GPS positionsconsumes power by supporting WPAN communications with an adapter orcollar to obtain GPS positions. The application also consumes power byprocessing the GPS positions to present the position information on amap and by processing position information to create related statistics,such as speed, distance to, direction to, or other factors determinedfrom GPS and/or accelerometer/gyroscope data. In many operatingconditions, an end user will have the mobile telephone in a pocket whilewalking, hunting or performing other activities. When the end userinitially looks at the mobile telephone display, the end user typicallydesires to know position information to find his dog, and then placesthe mobile telephone back away to continue the end user's activity, suchas hunting.

The process depicted by FIG. 15 saves mobile telephone battery power bydividing the gathering of GPS data at the mobile telephone from theanalyzing and presentation of GPS data. The gathering of GPS data isdone with a small thread that runs on the mobile telephone's processoror on the mobile telephone's WPAN network interface card, such as afirmware thread executing on the BLE stack. At step 182, the processbegins by analyzing GPS data at a mobile telephone, such as bypresenting GPS positions, paths and statistics on a map at a display ofthe mobile telephone. The process continues to step 184 to determine ifthe display screen is active and, if so, returns to step 182 to continueanalyzing GPS data. At step 184, the display screen may become inactiveif a user turns the display screen off or if a timeout occurs due to alack of activity, such as user inputs. If the display screen is notactive at step 184, the process continues to step 186 to store GPS datareceived by BLE from the adapter in a database of the mobile telephonewithout processing the data by other threads of the trainingapplication. Step 186 is performed by a small thread that consumesminimal power while other functions of the application rest or enter asleep mode. In one embodiment, the main processor sleeps while theBLE-to-database thread runs on BLE components, such as in the BLE stack.At step 186, the data may be stored exactly as received at the BLEtransceiver or may have parsing performed to convert from the BLEformat, such as a comma separated string format into a database format.In one embodiment, GPS data is truncated by removing larger values, suchas hemisphere and/or degree and/or minute values, so that an entirelatitude and longitude position will fit in single packet sent in asingle connection interval of the BLE connection. For example, a“preamble” having the hemisphere, degree and minute data is sent by theadapter to the mobile telephone each time the degree and minute valueschange so that only more precise data (i.e., minute and decimal values)is sent with each packet. Alternatively, the training applicationrunning on the mobile telephone “fills in the blanks” for the GPSposition by using the phone GPS position and previous detected collarGPS positions, and assuming the collar can only move so fast and be sofar away. The more precise GPS data that arrives at the mobile telephonemay be immediately parsed and added to the preamble for storage in thedatabase, or the more precise data may be stored in the database withoutparsing and adding the preamble so that population of the final positiondatabase is delayed until an active screen is again detected. In anotherembodiment, GPS data is stored in the adapter and sent in periodic largedownloads or not downloaded until the screen is active. At step 188, adetermination is made of whether the display screen has become activeagain and, if not, the process continues to step 186. If the displayscreen becomes active again, the process returns to step 182 to analyzethe GPS positions with the application for presentation at the display.Initially, the most recent data is processed and presented so the userhas the collars' current position. After the current position ispresented, older data may be processed or may be held until a requestfor the data is made, such as a view of the statistics for the collarover a past time period. In one embodiment, the BLE thread that storesdata in the database may include limited logic at step 188 to initiatedisplay screen or other activity. For example, if a flag indicating apoint is detected in data, the BLE thread may call the main applicationto issue a point alert to the end user, such as by sounding a telephoneringer and/or vibrating.

Referring now to FIG. 16, a flow diagram depicts an exemplary method formanaging power consumption of a mobile telephone, adapter and collarduring WPAN communications. For example, a BLE WPAN communicates withpackets sent at regular intervals known as the connection interval.Increasing the connection interval increases the rate at which dataupdates from a pointer or collar to a mobile telephone application,however, increasing the connection interval also increases the powerconsumed by the mobile telephone. To preserve power at the mobiletelephone, the process of FIG. 16 executes on the mobile telephone, thepointer, and/or the collars to adjust the connection interval based uponthe number of collars being supported and the amount of position databeing sent. The process starts at step 190 by a determination of thenumber of collars supported by a pointer. If the process is executed atthe application, the application may request the number of collarscurrently supported from the adapter and/or may include collars detectedby BLE communication between the mobile telephone and collars. At step192, a determination is made of the GPS update interval requested by auser of the application, such as every 1 second out to every 2 minutes.In some embodiments, the GPS update rate may be set based upon adistance traveled by the collar; in such instances, an estimate ofexpected update intervals based upon the distance may be used. At step194, a BLE connection interval is set based upon the amount of dataestimated to transfer by the BLE connection using the number of collars,the GPS update interval, and the number of packets that each positionupdate will require. For example, two collars that update every 5seconds with VHF to the adapter and an adapter that sends two BLEpackets to the mobile telephone with each collar position update may usea connection interval of 1 second so that the 4 expected packets eachsend in their own connection interval before the next GPS update occurs.In such an example, a more rapid connection interval may be used toensure a timely update is performed, such as a connection interval of aquarter of a second. As another example, 10 collars that update everysecond with each update having 2 BLE packets sent together in oneconnection interval to a mobile telephone will need a connectioninterval of at least a tenth of a second. The same set of 10 collarsthat sends each of the 20 packets in separate connection intervals willneed at least a 50 msec connection interval. In determining theconnection interval, additional connections may be added to account foroverhead, such as commands from the mobile telephone to the pointer orother data sent from the adapter to the mobile telephone.

Once a connection interval is set, the process continues to step 196 tosend data collected at the adapter to the mobile telephone with theconnection interval. At step 198, a determination is made of whether thenumber of collars supported by the adapter has changed. If yes, theprocess returns to step 190 to update the connection interval based uponthe number of collars. The number of collars may change if a collar isadded or deleted from an interface with the adapter, or may change if acollar that interfaces directly with the mobile telephone by BLE leavesBLE range and initiates a VHF interface through the adapter thatincreases the number of collars monitored by the adapter (or viceversa). The updated connection interval is sent by a BLE command fromthe mobile telephone application to the adapter or vice versa, and isinitiated on the fly. If the number of collars has not changed, theprocess continues to step 200 to determine if the GPS update rate haschanged. For example, a user might request that collars send GPSposition data to the adapter every 2 seconds instead of every 5 secondsor every one second. If the GPS update rate has changed, the processreturns to step 192 to determine the GPS update rate and apply the newrate to set an appropriate connection interval. In an alternativeembodiment, the GPS update rate may be estimated by logic executing onthe adapter device that monitors GPS data queued in the adapter andfinds an increased GPS rate if the data queued in the adapter isexcessive or is increasing over time. In response to a queue backlog,the adapter decreases the connection interval by sending a connectioninterval update request. The same logic might increase the connectioninterval if a number of connections pass without a data transfer.Similarly, the logic may increase slave latency settings when datatransfers slow and increase slave latency when data transfers increase.Such an active monitoring of a BLE stack data queue to estimate a GPSupdate rate might be used where collars update position based onmovement and movement becomes large, such as when dogs are running. Ifthe GPS update rate does not change, the process returns to step 196 tocontinue sending BLE GPS data from the adapter to the mobile telephone.

As an example to illustrate operation of updated connection intervals, ahunter starts with 10 dogs in a field, all within BLE range. BLE GPSupdates are provided every 1 second with 5 dogs having a BLE connectiondirectly to the hunter's mobile telephone and 5 dogs broadcast a GPSposition from their collars with the positions collected by both thehunter's mobile telephone and the hunter's adapter, which sends the GPSdata for those 5 collars to the hunter's mobile telephone by BLE.Initially, the hunter's adapter has a connection interval to send 2packets for each GPS position of each of the 5 collars that broadcast tothe adapter, i.e, at least a tenth of a second to handle 10 connectionsper second. When the hunter releases the dogs to hunt, the dogs exit BLErange so that GPS position data is communicated by VHF radio from eachof the collars to the adapter and then by BLE from the adapter to themobile telephone. The VHF GPS update rate is every 10 seconds so thatthe adapter on average must send 2 packets per second to the mobiletelephone, allowing an increase of the connection interval to as much asone-half a second. The user increases VHF GPS updates to every second sothat the adapter must communicate 20 packets every second to the mobiletelephone, resulting in a reset of the connection interval to 50 msec.Finally, the user changes the GPS update to a distance-based update thatprovides updated position data for each movement of each collar bygreater than 10 M from the last GPS position transmission. The adaptermaintains a 50 msec connection interval but detects a buildup in queueddata to send from the adapter to the mobile telephone and so updates toa 20 msec connection interval. The dogs run into a covey of quail and goon point so that GPS updates happen every minute. Connection intervallogic on the pointer or mobile telephone detects a slowdown of GPSposition updates (such as by knowing that a point indication will slowGPS updates or by monitoring transfers of data) and in response increasethe connection interval to one-half a second. The above example presentsjust one example of how the connection interval logic may adjustconnection intervals, and alternative embodiments may adjust connectionintervals in various manners. Further, the connection interval logic maybe used in other types of BLE systems that have varying demands basedupon the number of devices that are supported by BLE communications.

Referring now to FIG. 17, a block diagram depicts an example embodimentthat coordinates communication between a mobile telephone 14, adapter 82and collar 24 by WPAN and VHF managed to improve power efficiency. Apower manager 202 executing as part of an app on mobile telephone 14,such as training application 50, accepts end user power settings, suchas those depicted: 1. Timed transmissions controlled at the app; 2.Timed transmissions controlled at adapter 82; 3. Timed transmissioncontrolled at collar 24; and 4. Distance measured at collar 24. Mobiletelephone 14 sends the settings 206 selected by the end user to collar24 and adapter 82, such as by a BLE communication between BLEtransceivers 204. A setting that indicates timed communications from theapp results in control of VHF communications between VHF transceivers208 by sending commands from mobile telephone 14 to adapter 82 each timeadapter 82 should send a VHF communication requesting a GPS position ofcollar 24. Thus, for instance, if a user wants GPS positions every 5seconds, then every 5 seconds mobile telephone 14 sends a BLE commandfor adapter 82 to request by VHF transceiver 208 a GPS position ofcollar 24. Mobile telephone 14 can send one command for adapter 82 tocommunicate with all collars managed by adapter 82, can specify in onecommand the collars 24 that should be queried by adapter 82, or cancommand an inquiry to each collar individually by a BLE command toadapter 82 for each collar 24. Timed communications from trainingapplication 50 provides rapid response to changes in update rates ifchanges are requested by an end user and offers control at trainingapplication 50 of VHF transmissions so that collar positions known byBLE communications from a collar 24 to mobile telephone 14 are notrequested by VHF, thus saving power at collar 24 and adapter 82.

Timed communications by VHF using a timer 210 on adapter 82 operate insimilar manner to timed communications managed by mobile telephone 14.Power manager 202 sends a time interval to adapter 82 that adapter 82applies to command VHF communications each time the time intervalpasses. For example, mobile telephone 14 sends a 5 second time intervalto adapter 82 and adapter 82 commands each collar 24 under itsmanagement to report GPS position by VHF communication at each timeinterval. An advantage of this mode of management is that mobiletelephone 14 is able to reduce power consumption by entering a BLEmonitoring mode as described above with fewer functions performed by theapplication and thus less power consumed. In one embodiment, adapter 82monitors BLE broadcasts by collars 24 of GPS data so that adapter 82 caneliminate VHF requests for collar positions that are available by BLEbroadcasts from the collars. In another embodiment, mobile telephone 14monitors collars 24 by BLE and sets a flag for adapter 82 to prevent VHFrequests for collar positions based upon the availability of the collarpositions through BLE at mobile telephone 14. Power manager 202 andpower managers 212 running on adapter 82 and collar 24 cooperate, forinstance to coordinate the power saving processes described above inFIGS. 14-16.

Timed communications from collar 24 are made according to a timer 210 oncollar 24 that commands VHF communications to adapter 82 at a timeinterval in settings 206 provided by BLE command from mobile telephone14 or by VHF command from adapter 82. Collar 24 includes a power manager212 that monitors a connection with mobile telephone 14 so that VHFcommunications from collar 24 may be omitted when collar 24 is able tosend GPS position by BLE directly to mobile telephone 14. In each timingcase (timed VHF transmissions controlled by the app, the adapter or thecollar), VHF transceiver 208 on collar 24 and adapter 82 may sleep in areduced power consumption state between timed communications to reducepower consumption. Further, GPS receiver 214 on collar 24 may sleep in areduced power consumption state between BLE and VHF transmissions toreduce power consumption by the GPS receiver and then awaken for a rapidposition read immediately before BLE and VHF transmissions to provideadequate time to obtain an accurate GPS position. In one embodiment,wake times for the VHF radio and GPS receiver are synchronized byreference to a GPS clock tracked by the GPS receiver so that GPSpositions are resolved a short predetermined time before VHF radiotransmissions, and radio transmissions from different collars and theadapter do not interfere with each other. Although the GPS position thatis sent from the collar is a position taken slightly before the radiotransmission, a consistent delay across all VHF transmissions provides aconsistent picture of collar positions relative to each other. When aVHF radio time interval is adjusted, power manager 212 adjusts GPSreceiver 214 sleep intervals as necessary to provide an accurateposition for the next timed interval radio transmission. The GPSreceiver reduced power sleep state maintains information stored inmemory that allows a rapid lock of the GPS receiver to satellites whilereducing power consumption by not actively processing received GPSsignals to determine position. For example, by maintaining a GPS clocksignal, last detected position, ephemeral data and almanac in memory andprepared for use by a processor, the GPS receiver is able to rapidlytrack GPS satellites and determine a position. Over short distances andtimes, such as less than 2 minute intervals, the GPS receiveressentially switches on processing, determines position and switchesprocessing off so that minimal power is consumed compared with acontinual processing of GPS satellite signals during the time period. Inone embodiment, one position fix is taken for each VHF radiotransmission at a predetermined time before the radio transmission ismade. Thus, determining a GPS position substantially only when theposition is to be sent while maintaining position resolution data inmemory provides rapid and accurate positions with considerable powersavings.

In one embodiment, Ublox acquisition, continuous tracking and poweroptimized tracking (POT) modes are used at collar 24. Adapter 82 sendsthe VHF radio transmission interval to collar 24 and collar 24 storesthe time interval. Collar 24 enters acquisition to obtain a track ofenough satellites to resolve GPS position. After position is resolved,collar 24 places the GPS receiver in continuous tracking for moreaccurate position resolution with the GPS receiver continuouslyprocessing received signals to determine GPS position. If reduced powerconsumption is desired, collar 24 places the GPS receiver in poweroptimized mode with the GPS receiver timed to start processing data whena VHF request of GPS position is expected. For example, if a 5 secondVHF radio position update interval is set, the power optimized trackingis set to resolve GPS position just before the radio update is expected.In an alternative embodiment, the GPS receiver is placed in sleepimmediately after a GPS position is taken to be sent or is sent and thenawakened to continuous tracking for a brief period before the next radiotransmission is sent. A one second or one-half second of continuoustracking (as opposed to minimal processing with power optimized mode)allows a more accurate position resolution before the actual GPSposition is sent at a price of slightly more power consumption. Inanother alternative embodiment, power optimized tracking is used atintermediate time intervals between VHF radio transmissions to maintaintracking information up-to-date, and then continuous tracking is used togenerate an accurate GPS position to send by VHF. For instance, poweroptimized tracking monitors positions every one second and then, onesecond before a VHF radio transmission is requested, continuous trackingis commanded. Similarly, with the position-based VHF transmissiondisclosed below, power optimized tracking may be used with one secondtracking intervals until continuous tracking is commanded as theappropriate distance is reached to provide an accurate GPS position lockof when the distance from the last transmission is reached. Continuoustracking may be commanded based upon the results of power optimizedposition locks that show the desired distance of travel is approachingor based upon an estimate of distance traveled measure by accelerometerreadings or an estimate from accelerometer and gyroscope readings.

The final of the four settings of position transmissions is based upondistance traveled by collar 24 and may be accomplished alone or incombination with the various timed radio communications. For example,mobile telephone 14, adapter 82 and/or collar 24 may command VHFtransmission of position from collar 24 at a relatively lengthyinterval, such as every minute. Collar 24 also self-initiates a GPSposition transmission when a distance is traveled, such as every 10meters to every 50 meters. Each transmission based upon a distancetraveled resets the timer at mobile telephone 14 to start the timeinterval count again so that transmissions will occur based upondistance traveled unless no transmission takes place within the timeinterval, and then the lapse of the time interval will initiate atransmission of position data.

Transmission of GPS position data based upon distance traveled generallyinvolves a comparison of the presently-measured GPS position and the GPSposition at the last radio transmission to see if a distance greaterthan a threshold setting was traveled by collar 24. One difficulty withthis technique is that GPS receiver 214 consumes power while trackingthe present position to provide the basis for the distance comparison.In order to limit power consumption, power manager 212 performs anestimate of distance traveled based upon accelerations detected byaccelerometer 60 and wakes GPS receiver 214 from sleep to continuoustracking to detect current position when the estimated distance traveledapproaches the threshold. In one embodiment, a more accurate estimate ofdistance traveled is obtained by using accelerometer and gyroscopeinformation to act as an inertial navigation system by including vector(direction) analysis with acceleration analysis to determine distancetraveled. If, for example, a dog goes on point, then power is preservedby keeping the GPS receiver 214 in standby since the accelerometerdetects a lack of change of position.

Referring now to FIG. 18, an example embodiment depicts an adapter 82that re-configures with firmware downloads from mobile telephone 14 tomanage different types of legacy dog collar devices. Three differentcollars 24 (A, B and C) are each supported by a training applicationrunning on mobile telephone 14 that communicates by BLE to adapter 82and by VHF or UHF to collars 24 (A, B, and C). The commands supported byadapter 82 are modified by running firmware 216 that is consistent witha desired collar 24 under control. Mobile telephone 14 issues a commandto adapter 82 to boot to an operational state with a desired firmware tointeract with a desired collar 24, as long as the desired firmware isloaded in memory of adapter 82. If the desired firmware 216 is not savedin memory of adapter 82, then mobile telephone 14 performs a firmwareupdate by BLE to bring desired firmware 216 to an operational state.Advantageously, firmware updates allow adapter 82 to keep legacy systemsthat are in customer's hands in operation while allowing customers totransition to new technology.

Referring now to FIG. 19, a block diagram depicts a system for cachingmaps on a mobile telephone or tablet device 14. Mobile telephone 14contacts a map server 218 with coordinates for a map that mobiletelephone 14 seeks to cache. A map engine 220 provides maps at desiredresolutions by retrieving the maps from an image map file, such as adatabase of PNG maps 222 that have embedded GPS data, or by generatingimage map files with GPS data from vector maps of a vector map database224. The maps are downloaded to mobile telephone 14 and processed by amap tile engine 226 on the mobile telephone 14 that will cache and usethe maps as plural tiles usable by web browser mapping APIs, such asGoogle Maps. In one alternative embodiment, map engine 220 may generatemap tiles for a user and store the map tiles in a user map database 228,such as in a compressed form that reduces bandwidth usage at download.As another alternative, map server 220 may download vector maps 224 tomobile telephone 14 so that the mobile telephone 14 that will cache anduse the maps can generate map images (i.e., PNG images with GPS data)for map tile engine 226 to apply. For instance GeoPDF vector maps areprocessed by map tile engine 226 to create PNG maps of differentresolutions that are in turn cut into map tiles on mobile telephone 14.

The effect of the example embodiment is to allow one download of a mapimage for a desired cached area at a desired resolution and then toprocess the one download into multiple map tile files 230 for the zoomlevel that a map tile API 232, such as the Google Maps API, can use topresent the cached maps in the place of actively downloaded maps, suchas Google Maps downloaded through a wireless service provider network.Tiles 230 illustrate how map tiles are maintained at a zoom level with xand y coordinates. The largest zoom level of zero is the entire Earthwith 360 degrees. Each increase in zoom level cuts the previous zoominto four squares. For example, zoom level 1 has 180 degrees in eachtile for a total of four tiles, a zoom level of 2 has 90 degrees in eachtile for a total of 16 tiles. At each zoom level, the tiles are splitinto squares of 256×256 pixels so that the distance represented by eachpixel decreases as the zoom level increase. As wikiopenstreets explains,a total of 20 zoom levels (0 to 19) results in a highest zoom of 19having 0.0005 degrees per tile with approximately 0.298 meters per pixelbased upon an Earth radius of 6372.7982 km at the equator as depicted ona 85.2 DPI monitor. Distance per pixel varies as a location increases ordecreases in latitude from the Equator based on a function of theco-sign of the latitude. More precise determinations are possible byapplying different mapping techniques and corrections, such as aspherical Mercator projection used by Google.

A maximum zoom of 19 for a Mapnik layer has 274,877,906,944 tiles tocover the Earth. In most instances, hunters will cover areas of around 5square miles at a time, however, in deep grass or cover a hunter mayneed a high zoom map to locate a dog even with a precise GPS position.Map tile engine 226 provides high-zoom satellite or topographic mapsover small and precisely defined areas by downloading one image of anarea at the desired resolution and preparing map tiles on the cachingdevice, i.e., the mobile telephone or tablet that will use the cachedmaps. For example, a hunter downloads a PNG image of a five square milearea for each desired cached zoom level so that a cached map of zoomlevels 16-18 would require only three downloads at three imageresolutions. The PNG file downloaded with a resolution that matches zoomlevel 16 is divided into tiles of 256×256 pixels for zoom level 16usable by tile API 232 and stored; the PNG file downloaded with aresolution that matches zoom level 17 is divided into tiles of 256×256pixels for zoom level 17 usable by tile API 232 and stored; and the PNGfile downloaded with a resolution that matches zoom level 18 is dividedinto tiles of 256×256 pixels for zoom level 18 usable by tile API 232and stored. Alternatively a vector map 224 is converted at the cachingdevice into three PNG files that have resolutions suitable for use atzoom levels 16, 17 and 18, and the three PNG files are then cut up intotiles. The advantage is that a mobile telephone or tablet device thatseeks to cache and display maps at higher resolutions is able to do sowith fewer downloads of larger files and then is able to use the cachewith browser-based APIs, such as Google Maps or Google Earth.

In addition to providing a convenient way to cache maps, a mobiletelephone Internet interface provides a convenient way to share resultsof GPS tracking with other system users. For example, the database ofGPS data from tracking a collar is transferred from mobile telephone 14to a results server 236 and stored in a results database 238. Anotheruser with authorization to access the results can download the resultsto a mobile telephone 14 having the training application and view theresults. For example a trainer who runs a kennel may track a dog'straining for a client and post the training so the client can downloadand view the training. If the trainer makes verbal comments to themobile telephone or takes a video with the mobile telephone, then marksin the results map allow the client to hit the map at the mark and playthe comments or video as the results are presented. Further, real-timetracking of a hunting event, such as a field trial, is supported byhaving participants download GPS positions to a results database andthen feeding the results database to a server that combines all theparticipants tracking data as the data is received.

Referring now to FIG. 20, a flow diagram depicts a process for adjustingoperating conditions at a collar and adapter based upon map features.The flow diagram depicts a two-phase VHF power transmission adjustmentas described above that operates in combination with a Smart Hazards Map252. The process starts at step 240 with VHF power transmission at 2 W,the maximum currently allowed in the 150 MHz MURS public bands. At step242, a comparison of the return signal strength indicator is madeagainst a threshold. If the return strength is below the threshold, theprocess returns to step 240 to continue transmissions at 2 W. If thereturn strength is above the threshold the process continues to step 244to determine if an incremented counter value is equal to a threshold. Ifnot, the process continues to step 246 to increment the counter valueand returns to step 240. If the counter value equals the threshold, theprocess continues to step 248 to set power at one-half of a Watt. Atstep 250, a comparison is made of the return signal strength indicatorand a threshold to determine if one-half Watt is adequate power. If thereturn signal is less than a threshold, the process returns to step 240.If the return signal is greater than the threshold, the process returnsto step 248. The steps 240 through 250 are performed by a power manageron both the collar and the adapter based on the return signal strengthfrom the opposing VHF radio.

The VHF radio communications rely upon line of sight and tend to haveshorter ranges when an antenna is placed at the height of a dog collar.In particular, line of sight communication ranges tend to suffer for the150 MHz MURS public bands in hilly areas where hills block a radiosignal or in populated areas where buildings block radio signals. Toaddress the varying conditions, a geo-feature engine 254 on mobiletelephone 14 analyzes geographical features on map 252 and sets RSSIthresholds x and z to different levels so that VHF radio communicationsare less likely to suffer degradation. For instance, the collar sendsGPS latitude and longitude position and also sends GPS elevationposition. Mobile telephone 14 geo-feature engine 254 compares theelevation information with the mobile telephone elevation and theelevation of the terrain between the adapter and collar, and resets thevalues of x and y by BLE to the adapter and by VHF to the collar. Hillyterrain will result in more frequent use of higher VHF transmissionpower, especially if the elevation of the mobile telephone, collar andterrain indicates that line of sight radio transmissions may bequestionable. In contrast, flat terrain will result in more frequent useof lower VHF transmission power. In one embodiment, geo-feature engine254 simply commands the use of 2 W of power when line of sightcommunications becomes questionable.

Geo-feature engine 254 offers additional smart hazard map alerts basedupon features gleaned from the map, such as with embedded featureindicators or image analysis. Some examples depicted in map 252 includea water alert that lets a hunter know if the dog has approached orentered water 256 indicated on map 252. Another example is a road alertthat lets a hunter know if a dog has approached or entered a road 258indicated on the map. Another example is a cliff hazard alert that letthe hunter know if a dog has approached a sharp change in elevation,such as a cliff 260 indicated on a map by tightly packed elevationlines. Another example is a public versus private land alert that warnsa hunter of what the boundary is for private land 262 when the hunter ison public land so that the hunter can respect private land rights bothfor himself and for his dog's position. Alerts may issue into anearpiece of the hunter, as a vibration of mobile telephone 14 or as adifferent ring tone for each different type of alert.

Although the present disclosure relates to the use of BLE, GPS and VHFradio in a dog collar tracking scenario managed through a smartphone,the use of portions of the disclosure alone or in other types of systemsis contemplated, whether or not related to tracking of a dog collar, useon a mobile telephone or tablet, or any other scope.

Although the present invention has been described in detail, it shouldbe understood that various changes, substitutions and alterations can bemade hereto without departing from the spirit and scope of the inventionas defined by the appended claims.

What is claimed is:
 1. A communication device comprising: a first radio communicating wireless signals with a first protocol, the first protocol communicating at a connection interval having periodic transmissions; a second radio communicating wireless signals with a first protocol; a processor interfaced with the first radio and the second radio; and non-transitory memory interfaced with the processor and storing instructions that when executed by the processor: receives information with wireless signals sent by an external radio to the first radio; communicates the information with wireless signals sent by the second radio; increases the connection interval time if the first radio has a predetermined number of connection interval communications that pass without data transfer.
 2. The communication device of claim 1 wherein the instructions: queue information if the information fails to fit into a connection interval for communication; and decreases the connection interval time if the queued information exceeds a predetermined amount.
 3. The communication device of claim 2 wherein the instructions set an initial connection interval based at least in part on the number of external radios communicating with the second radio.
 4. The communication device of claim 3 wherein the instructions set the initial connection interval based at least in part on how often the external radios communicate with the second radio.
 5. The communication device of claim 4 wherein the instructions: detect a change in the number of external radios communicating with the second radio; and in response to detecting the change, increasing the connection interval time if the number of external radios decreases and decreasing the connection interval time if the number of external radios increases.
 6. The communication device of claim 5 wherein the external radios comprise dog collars transmitting GPS position reports through VHF wireless communications.
 7. The communication device of claim 6 wherein the first radio communicates with a mobile telephone.
 8. A method for communicating information with wireless signals, the method comprising: communicating information as wireless signals with a first wireless radio having a first wireless protocol, the first wireless protocol communicating information at a connection interval having periodic transmissions; processing the information with a processor interfaced with the first wireless radio; communicating the information with the processor to one or more external devices; detecting a predetermined number of connection intervals at the first wireless radio that pass without data transfer; and in response to the detecting, increasing the connection interval time.
 9. The method of claim 8 further comprising: queuing information if the information fails to fit into a connection interval for communication; and decreasing the connection interval time if the queued information exceeds a predetermined amount.
 10. The method of claim 9 wherein the one or more external devices comprises an external radio, the communicating the information with the processor to one or more external devices further comprising communicating wireless signals from a second wireless radio to the external radio.
 11. The method of claim 10 wherein the external radio comprises a MURS band VHF radio.
 12. The method of claim 11 further comprising setting the connection interval at least in part on the number of external radios communicating with the second radio.
 13. The method of claim 8 wherein the information comprises GPS coordinates.
 14. The method of claim 8 wherein the information comprises commands for execution by the one or more external devices.
 15. The method of claim 8 wherein the first wireless radio communicates with a mobile telephone. 